A step toward safe and reliable autopilots for flying
A new AI-based approach for controlling autonomous robots satisfies the often-conflicting goals of safety and stability.
A new AI-based approach for controlling autonomous robots satisfies the often-conflicting goals of safety and stability.
Students learn about the complexity behind simple, everyday movement before experimenting with mechanical models.
Researchers create a new simulation tool for robots to manipulate complex fluids in a step toward helping them more effortlessly assist with daily tasks.
With winches, spinners, and telescoping contraptions, bots go head to head in student robot competition inspired by “Black Panther: Wakanda Forever.”
The illustrious prize supports early-career scientists and engineers as they pursue interdisciplinary work.
The MIT Sailing Pavilion, the oldest collegiate organization of its kind, offers community members a chance to sail for free — or just enjoy the good vibes.
SoftZoo is a soft robot co-design platform that can test optimal shapes and sizes for robotic performance in different environments.
Rather than start from scratch after a failed attempt, the pick-and-place robot adapts in the moment to get a better hold.
Researchers demonstrate a low-power “wake-up” receiver one-tenth the size of other devices.
MIT researchers exhibit a new advancement in autonomous drone navigation, using brain-inspired liquid neural networks that excel in out-of-distribution scenarios.
The three-fingered robotic gripper can “feel” with great sensitivity along the full length of each finger – not just at the tips.
“DribbleBot” can maneuver a soccer ball on landscapes such as sand, gravel, mud, and snow, using reinforcement learning to adapt to varying ball dynamics.
Following an influential career at NASA, Ezinne Uzo-Okoro SM ’20, PhD ’22 now shapes space policy as a top White House advisor.
Work of the Future Initiative co-directors Julie Shah and Ben Armstrong describe their vision of “positive-sum automation.”
New repair techniques enable microscale robots to recover flight performance after suffering severe damage to the artificial muscles that power their wings.